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TEACHING
METHODOLOGY
+ Philosophy | + Learning
Environment | + Inquiry | + Unique
Assignments to Promote Inquiry and Learning Strategies
Philosophy
It is constructive to begin with the basic
assumption about our students that they are
innately curious- that they want to learn,
discover, and create. This doesn't mean that
they are curious about chapter one of a science
book, but that learning normally originates
from a desire to know as much as a need to
know. Recognizing that people learn through
a variety of modes (aural, oral, visual and
kinesthetic), we attempt to engage their problem
solving in as rich an experiential matrix as
possible. Learning can be described as the
interaction between the self and an experience
that brings about a change. There must be an
experience, and, while this could include a
lecture or a reading, the greatest interaction
occurs when an individual is engaging more
of the learning modes. It also helps if the
person desires and needs to know. The richer
the experience is, the richer the interaction
will be, and the more substantial the change
will be. With this approach our language of
teaching changes from controlling, molding,
giving, ... to enhancing, opening, challenging,
nourishing, guiding, ... (See Science Teaching
Standards-Changing Emphasis, p52 NSES) |
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Learning
Environment
It is essential to create an environment in
which our students are active participants
in the learning process. In this environment
the students are the essential workers in the
educational process. They construct, discover,
and develop central concepts. They create and
solve problems. They read, write, talk, think,
pose questions, and solve problems. They observe
and manipulate aspects of their environment,
and in the manipulation, confront problems
about which they think, talk, write, and read.
They take risks. Students exhibit the ability
to learn how to learn. Students exhibit understanding
of the central concepts and competence with
the essential skills in a problem-solving environment.
Students exhibit competence in individual and
group problem solving. Students exhibit a willingness
to accept different kinds of solutions to the
same problem. They exhibit a willingness to
work with other students outside of class.
Within this changing emphasis the teacher
is committed to presenting learning experiences,
not necessarily information, and to using open-ended
questions whenever appropriate. Teachers guide
the experience. Teachers define the problem
field, and sometimes define the central question.
This does not mean that teachers do not ever
give information. The criterion, it seems,
must be, “Is this information closing
down investigation or enabling and enhancing
investigation; is it giving the answer or providing
the framework in which questions can be asked,
problems posed and investigation begun?” Teachers
respect the student's ability to solve problems.
Whenever we give an answer, we run the risk
of communicating that we believe the student
is incapable of solving the problem. Teachers
praise careful thought and process publicly
and often, recognizing the risks taken. Teachers
encourage different problem-solving techniques
and the involvement of as many different learning
modes as a student needs. Teachers also encourage
students to develop problem-solving techniques
that are weaker than their preferred style.
For example we encourage intuitive problem-solvers
to marry analysis to their intuition, and we
encourage analytical problem-solvers to use
intuition. |
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Inquiry
“Students … should be provided
opportunities to engage in full and in partial
inquiries. In a full inquiry students begin
with a question, design an investigation, gather
evidence, formulate an answer to the original
question, and communicate the investigative
process and results. In partial inquiries,
they develop abilities and understanding of
selected aspects of the inquiry process. Students
might, for instance, describe how they would
design an investigation, develop explanations
based on scientific information and evidence
provided through a classroom activity, or recognize
and analyze several alternative explanations
for a natural phenomenon presented in a teacher-led
demonstration.” (NSES, p143) This unit
is designed to help students become more proficient
within the inquiry process as well as to learn
specific content. Make the structure of the
unit explicit for your students; discuss the
structure and the modeling of inquiry process
as you progress through the unit. The first
lesson involves the student in partial inquiry
with a great deal of structure. The teacher
manipulates the experimental tools, questions
are provided for students, and the analysis
of data is guided by questions that require
short answers. In Lesson 2 students follow
directions that require them to manipulate
equipment themselves. Guide questions are provided
in the Observation part of the investigation,
but the student is required to provide more
of the problem-solving structure in the Conclusion
than they did in Lesson 1. Modeling of experimental
technique and of problem-solving process is
provided throughout the unit allowing the student
to become more responsible for the inquiry
process. In the final lesson the student provides
the question, the design for the inquiry, the
planning, the execution of the inquiry and
the communication of results. |
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Unique
Assignments to Promote Inquiry and Learning
Strategies
Several types of assignments are used in this
unit that may be unfamiliar to your students.
Journals, Predictions, Prediction Reflections
and Peer Review are powerful tools that can
enhance the learning experience for your students
in any inquiry.
Journals
Although there are journal assignments
in this unit you are encouraged to make more
assignments. The journal assignments in this
unit are designed to engage your students
in the problem presented by the lesson and
to reveal your students’ preconceptions
about the concepts before instruction. In
addition, in Lesson 2 the journal assignments
can be used as pre-test/post-test evaluations
of student understanding. You can assign
intermediate journal entries to monitor student
progress and to help your students organize
their thoughts. Many teachers use journal
reflections as a regular part of the daily
schedule. Students enter the room, get their
journal from a central location, and respond
to a question the teacher has provided. The
question is connected to the day’s
activity. Students begin work immediately,
and the teacher completes administrative
chores while the students are working.
Journals are evaluated on the basis of
careful thought. The emphasis should not
be on the correctness of an answer. You want
to know what your students are thinking,
not what they think you want them to think.
Because of the role of the journal assignments
included in this unit, you need to read each
student’s entry. For other entries
you can decide to read each, or read one
from each team. In some cases teachers have
asked each student to identify one for each
week she/he wants the teacher to read. Teachers
can then scan the others.
Predictions
Students may not have much experience making
predictions formally. Ask them to think about
what they know - what experiences they have
had to guide them. Physics Education Research
(PER) has shown that student performance
and investment are enhanced when they make
predictions. Stress to your students that
their predictions will not be graded except
for completion and the thoroughness of their
answers. Do stress, however, that the predictions
are important.
Prediction Reflections
Research also indicates that students can
learn to learn more effectively if you ask
them to reflect upon their predictions after
they complete the activity. A Prediction
Reflection assignment is provided in the
Appendix that can be used after any exploration
in which the students make predictions. Introduce
the Prediction Reflection to students before
they start the prediction, and tell them
a Prediction Reflection will be an assignment
later on. Ask them to be aware of their reasons
for making each prediction in preparation
for this assignment.
Peer Review
Many scientists, engineers, and businesspeople
use peer review to improve the quality of
their efforts. Some review is evaluative.
One person or team presents and defends a
business plan or the results of an investigation
to peers who critique the work. Many groups
use a more informal review to assist in the
planning stages. It is this formative review
that is used in this unit. The benefits to
the presenter and to the reviewers are explained
in the guidelines in the Appendix.
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